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26 // G4LogicalVolume << 8 // $Id: G4LogicalVolume.hh,v 1.6 2000/11/01 15:39:32 gcosmo Exp $
>> 9 // GEANT4 tag $Name: geant4-03-01 $
>> 10 //
>> 11 //
>> 12 // class G4LogicalVolume
27 // 13 //
28 // Class description: 14 // Class description:
29 // 15 //
30 // Represents a leaf node or unpositioned subt 16 // Represents a leaf node or unpositioned subtree in the geometry hierarchy.
31 // Logical volumes are named, and may have dau 17 // Logical volumes are named, and may have daughters ascribed to them.
32 // They are responsible for retrieval of the p 18 // They are responsible for retrieval of the physical and tracking attributes
33 // of the physical volume that it represents: 19 // of the physical volume that it represents: solid, material, magnetic field,
34 // and optionally, user limits, sensitive dete << 20 // and optionally, user limits, sensitive detectors.
35 // 21 //
36 // Get and Set functionality is provided for a 22 // Get and Set functionality is provided for all attributes, but note that
37 // most set functions should not be used when 23 // most set functions should not be used when the geometry is `closed'.
38 // As a further development, `Guard' checks c 24 // As a further development, `Guard' checks can be added to ensure
39 // only legal operations at tracking time. 25 // only legal operations at tracking time.
40 // 26 //
41 // On construction, solid, material and name m 27 // On construction, solid, material and name must be specified.
42 // 28 //
43 // Daughters are ascribed and managed by means 29 // Daughters are ascribed and managed by means of a simple
44 // GetNoDaughters,Get/SetDaughter(n),AddDaught << 30 // GetNoDaughters,Get&SetDaughter(n),AddDaughter interface.
45 // 31 //
46 // Smart voxels as used for tracking optimisat << 32 // Smart voxels as used for tracking optimisation are also an attribute.
47 // 33 //
48 // Logical volumes self register to the logica 34 // Logical volumes self register to the logical volume Store on construction,
49 // and deregister on destruction. 35 // and deregister on destruction.
50 // 36 //
51 // NOTE: This class is currently *NOT* subclas 37 // NOTE: This class is currently *NOT* subclassed, since not meant to
52 // act as a base class. Therefore, the d 38 // act as a base class. Therefore, the destructor is NOT virtual.
53 // 39 //
54 // Data members: 40 // Data members:
55 // 41 //
56 // std::vector<G4VPhysicalVolume*> fDaughte << 42 // G4RWTPtrOrderedVector<G4VPhysicalVolume> fDaughters
57 // - Vector of daughters. Given initial siz 43 // - Vector of daughters. Given initial size of 0.
58 // G4FieldManager* fFieldManager << 44 // G4FieldManager *fFieldManager
59 // - Pointer (possibly 0) to (magnetic or o << 45 // - Pointer (possibly NULL) to (magnetic or other) field manager object.
60 // G4Material* fMaterial << 46 // G4Material *fMaterial
61 // - Pointer to material at this node. 47 // - Pointer to material at this node.
62 // G4String fName 48 // G4String fName
63 // - Name of logical volume. 49 // - Name of logical volume.
64 // G4VSensitiveDetector *fSensitiveDetector 50 // G4VSensitiveDetector *fSensitiveDetector
65 // - Pointer (possibly 0) to `Hit' object. << 51 // - Pointer (possibly NULL) to `Hit' object.
66 // G4VSolid* fSolid << 52 // G4VSolid *fSolid
67 // - Pointer to solid. 53 // - Pointer to solid.
68 // G4UserLimits* fUserLimits << 54 // G4UserLimits *fUserLimits
69 // - Pointer (possibly 0) to user Step limi << 55 // - Pointer (possibly NULL) to user Step limit object for this node.
70 // G4SmartVoxelHeader* fVoxel << 56 // G4SmartVoxelHeader *fVoxel
71 // - Pointer (possibly 0) to optimisation i << 57 // - Pointer (possibly NULL) to optimisation info objects.
72 // G4bool fOptimise <<
73 // - Flag to identify if optimisation shoul <<
74 // G4bool fRootRegion <<
75 // - Flag to identify if the logical volume <<
76 // G4double fSmartless 58 // G4double fSmartless
77 // - Quality for optimisation, average numb 59 // - Quality for optimisation, average number of voxels to be spent
78 // per content. 60 // per content.
79 // const G4VisAttributes* fVisAttributes 61 // const G4VisAttributes* fVisAttributes
80 // - Pointer (possibly 0) to visualization << 62 // - Pointer (possibly NULL) to visualization attributes.
81 // G4Region* fRegion << 63 // G4FastSimulationManager *fFastSimulationManager
82 // - Pointer to the cuts region (if any) << 64 // - Pointer (possibly NULL) to G4FastSimulationManager object.
83 // G4MaterialCutsCouple* fCutsCouple <<
84 // - Pointer (possibly 0) to associated pro <<
85 // G4double fBiasWeight <<
86 // - Weight used in the event biasing techn <<
87 // <<
88 // Following data members has been moved to G4 <<
89 // G4FastSimulationManager* fFastSimulation <<
90 // - Pointer (possibly 0) to G4FastSimulati <<
91 // G4bool fIsEnvelope 65 // G4bool fIsEnvelope
92 // - Flags if the Logical Volume is an enve 66 // - Flags if the Logical Volume is an envelope for a FastSimulationManager.
>> 67 // G4double fBiasWeight
>> 68 // - Weight used in the event biasing technique.
93 69
94 // 15.01.13 G.Cosmo, A.Dotti: Modified for thr << 70 // History:
95 // 12.11.04 G.Cosmo: Added GetMass() method fo <<
96 // 24.09.02 G.Cosmo: Added flags and accessors <<
97 // 17.05.02 G.Cosmo: Added IsToOptimise() meth <<
98 // 18.04.01 G.Cosmo: Migrated to STL vector <<
99 // 12.02.99 S.Giani: Added user defined optimi 71 // 12.02.99 S.Giani: Added user defined optimisation quality
100 // 09.11.98 M.Verderi, J.Apostolakis: Added Bi << 72 // 09.11.98 J. Apostolakis: Changed G4MagneticField to G4FieldManager
101 // 10.20.97 P.M.DeFreitas, J.Apostolakis: Adde << 73 // 09.11.98 M. Verderi & JA. : added BiasWeight member and Get/Set methods
102 // 11.07.95 P.Kent: Initial version << 74 // 10.20.97 P. MoraDeFreitas : added pointer to a FastSimulation
103 // ------------------------------------------- << 75 // (J.Apostolakis) & flag to indicate if it is an Envelope for it
104 #ifndef G4LOGICALVOLUME_HH << 76 // 19.11.96 J.Allison Replaced G4Visible with explicit const G4VisAttributes*.
105 #define G4LOGICALVOLUME_HH 1 << 77 // 19.08.96 P.Kent Split -> hh/icc/cc files; G4VSensitiveDetector change
>> 78 // 11.07.95 P.Kent Initial version.
106 79
107 #include <vector> << 80 #ifndef G4LOGICALVOLUME_HH
108 #include <memory> << 81 #define G4LOGICALVOLUME_HH
109 82
110 #include "G4Types.hh" << 83 #include "globals.hh"
111 #include "G4Region.hh" // Required b << 84 #include "G4VPhysicalVolume.hh" // Need operator == for vector fdaughters
112 #include "G4VPhysicalVolume.hh" // Need opera << 85 #include "g4rw/tpordvec.h"
113 #include "G4GeomSplitter.hh" // Needed for << 86 #include <assert.h>
114 #include "G4Threading.hh" <<
115 87
116 // Forward declarations 88 // Forward declarations
117 // <<
118 class G4FieldManager; 89 class G4FieldManager;
119 class G4Material; 90 class G4Material;
120 class G4VSensitiveDetector; 91 class G4VSensitiveDetector;
121 class G4VSolid; 92 class G4VSolid;
122 class G4UserLimits; 93 class G4UserLimits;
123 class G4SmartVoxelHeader; 94 class G4SmartVoxelHeader;
124 class G4FastSimulationManager; <<
125 class G4MaterialCutsCouple; <<
126 class G4VisAttributes; 95 class G4VisAttributes;
127 << 96 class G4FastSimulationManager;
128 class G4LVData <<
129 { <<
130 // Encapsulates the fields associated to the <<
131 // G4LogicalVolume that may not be read-only <<
132 <<
133 public: <<
134 <<
135 G4LVData(); <<
136 void initialize() <<
137 { <<
138 fSolid = nullptr; <<
139 fSensitiveDetector = nullptr; <<
140 fFieldManager = nullptr; <<
141 fMaterial = nullptr; <<
142 fMass = 0.0; <<
143 fCutsCouple = nullptr; <<
144 } <<
145 <<
146 public: <<
147 <<
148 G4VSolid* fSolid = nullptr; <<
149 // Pointer to solid. <<
150 G4VSensitiveDetector* fSensitiveDetector = <<
151 // Pointer to sensitive detector. <<
152 G4FieldManager* fFieldManager = nullptr; <<
153 // Pointer (possibly nullptr) to (magnet <<
154 G4Material* fMaterial = nullptr; <<
155 // Pointer to material at this node. <<
156 G4double fMass = 0.0; <<
157 // Mass of the logical volume tree. <<
158 G4MaterialCutsCouple* fCutsCouple = nullpt <<
159 // Pointer (possibly nullptr) to associa <<
160 }; <<
161 <<
162 // The type G4LVManager is introduced to encap <<
163 // both the master thread and worker threads t <<
164 // the fields encapsulated by the class G4LVDa <<
165 // initializes the value for these fields, it <<
166 // definition defined below. For every G4Logic <<
167 // a corresponding G4LVData instance. All G4LV <<
168 // by the class G4LVManager as an array. <<
169 // The field "int instanceID" is added to the <<
170 // The value of this field in each G4LogicalVo <<
171 // of the corresponding G4LVData instance. <<
172 // In order to use the class G4LVManager, we a <<
173 // G4LogicalVolume as follows: "static G4LVMan <<
174 // For the master thread, the array for G4LVDa <<
175 // along with G4LogicalVolume instances are cr <<
176 // it copies the array of G4LVData instances f <<
177 // In addition, it invokes a method similiar t <<
178 // to achieve the partial effect for each inst <<
179 // <<
180 using G4LVManager = G4GeomSplitter<G4LVData>; <<
181 97
182 class G4LogicalVolume 98 class G4LogicalVolume
183 { 99 {
184 public: << 100 public: // with description
185 << 101
186 G4LogicalVolume(G4VSolid* pSolid, << 102 G4LogicalVolume(G4VSolid *pSolid, G4Material *pMaterial,
187 G4Material* pMaterial, << 103 const G4String& name,
188 const G4String& name, << 104 G4FieldManager *pFieldMgr=0,
189 G4FieldManager* pFieldMgr << 105 G4VSensitiveDetector *pSDetector=0,
190 G4VSensitiveDetector* pSDe << 106 G4UserLimits *pULimits=0);
191 G4UserLimits* pULimits = n << 107 // Constructor. The solid and material pointer must be non null. The
192 G4bool optimise = true); << 108 // parameters for field, detector and user limits are optional.
193 // Constructor. The solid and material p <<
194 // The parameters for field, detector an <<
195 // The volume also enters itself into th 109 // The volume also enters itself into the logical volume Store.
196 // Optimisation of the geometry (voxelis <<
197 // hierarchy is applied by default. For <<
198 // the hierarchy, optimisation is -alway <<
199 110
200 virtual ~G4LogicalVolume(); << 111 ~G4LogicalVolume();
201 // Destructor. Removes the logical volum 112 // Destructor. Removes the logical volume from the logical volume Store.
202 // This class is NOT meant to act as bas << 113 // NOT virtual, since not meant to act as base class.
203 // circumstances of extended types used <<
204 114
205 G4LogicalVolume(const G4LogicalVolume&) = << 115 inline G4String GetName() const;
206 G4LogicalVolume& operator=(const G4Logical << 116 inline void SetName(const G4String& pName);
207 // Copy-constructor and assignment opera <<
208 <<
209 inline const G4String& GetName() const; <<
210 void SetName(const G4String& pName); <<
211 // Returns and sets the name of the logi 117 // Returns and sets the name of the logical volume.
212 118
213 inline std::size_t GetNoDaughters() const; << 119 inline G4int GetNoDaughters() const;
214 // Returns the number of daughters (0 to 120 // Returns the number of daughters (0 to n).
215 inline G4VPhysicalVolume* GetDaughter(cons << 121 inline G4VPhysicalVolume* GetDaughter(const G4int i) const;
216 // Returns the ith daughter. Note number << 122 // Return the ith daughter. Note numbering starts from 0,
217 // and no bounds checking is performed. 123 // and no bounds checking is performed.
218 void AddDaughter(G4VPhysicalVolume* p); << 124 inline void AddDaughter(G4VPhysicalVolume* p);
219 // Adds the volume p as a daughter of th << 125 // Add the volume p as a daughter of the current logical volume.
220 inline G4bool IsDaughter(const G4VPhysical 126 inline G4bool IsDaughter(const G4VPhysicalVolume* p) const;
221 // Returns true if the volume p is a dau << 127 // Returns true is the volume p is a daughter of the current
222 // logical volume. 128 // logical volume.
223 G4bool IsAncestor(const G4VPhysicalVolume* << 129 inline void RemoveDaughter(const G4VPhysicalVolume* p);
224 // Returns true if the volume p is part << 130 // Remove the volume p from the List of daughter of the current
225 // volumes established by the current lo <<
226 // recursively the volume tree. <<
227 void RemoveDaughter(const G4VPhysicalVolum <<
228 // Removes the volume p from the List of <<
229 // logical volume. 131 // logical volume.
230 void ClearDaughters(); << 132
231 // Clears the list of daughters. Used by << 133 inline G4VSolid* GetSolid() const;
232 // the geometry tree is cleared, since m << 134 inline void SetSolid(G4VSolid *pSolid);
233 G4int TotalVolumeEntities() const; <<
234 // Returns the total number of physical <<
235 // in the tree represented by the curren <<
236 inline EVolume CharacteriseDaughters() con <<
237 // Characterise the daughters of this lo <<
238 inline EVolume DeduceDaughtersType() const <<
239 // Used by CharacteriseDaughters(). <<
240 <<
241 G4VSolid* GetSolid() const; <<
242 void SetSolid(G4VSolid* pSolid); <<
243 // Gets and sets the current solid. 135 // Gets and sets the current solid.
244 136
245 G4Material* GetMaterial() const; << 137 inline G4Material* GetMaterial() const;
246 void SetMaterial(G4Material* pMaterial); << 138 inline void SetMaterial(G4Material *pMaterial);
247 // Gets and sets the current material. 139 // Gets and sets the current material.
248 void UpdateMaterial(G4Material* pMaterial) << 140
249 // Sets material and corresponding Mater << 141 inline G4FieldManager* GetFieldManager() const;
250 // This method is invoked by G4Navigator <<
251 // material parameterization. <<
252 G4double GetMass(G4bool forced = false, G4 <<
253 G4Material* parMaterial = <<
254 // Returns the mass of the logical volum <<
255 // estimated geometrical volume of each <<
256 // to the logical volume and (by default <<
257 // NOTE: the computation may require a c <<
258 // depending from the complexity o <<
259 // The returned value is cached an <<
260 // calls (default), unless recompu <<
261 // 'true' for the boolean argument <<
262 // be forced if the geometry setup <<
263 // call. By setting the 'propagate <<
264 // method returns the mass of the <<
265 // (subtracted for the volume occu <<
266 // An optional argument to specify <<
267 void ResetMass(); <<
268 // Ensure that cached value of Mass is i <<
269 // state, e.g. change of size of Solid, <<
270 // or the addition/deletion <<
271 <<
272 G4FieldManager* GetFieldManager() const; <<
273 // Gets current FieldManager. 142 // Gets current FieldManager.
274 void SetFieldManager(G4FieldManager* pFiel << 143 void SetFieldManager(G4FieldManager *pFieldMgr, G4bool forceToAllDaughters);
275 // Sets FieldManager and propagates it: 144 // Sets FieldManager and propagates it:
276 // i) only to daughters with G4FieldMan << 145 // i) only to daughters with G4FieldManager = 0
277 // if forceToAllDaughters=false 146 // if forceToAllDaughters=false
278 // ii) to all daughters 147 // ii) to all daughters
279 // if forceToAllDaughters=true 148 // if forceToAllDaughters=true
280 149
281 G4VSensitiveDetector* GetSensitiveDetector << 150 inline G4VSensitiveDetector* GetSensitiveDetector() const;
282 // Gets current SensitiveDetector. 151 // Gets current SensitiveDetector.
283 void SetSensitiveDetector(G4VSensitiveDete << 152 inline void SetSensitiveDetector(G4VSensitiveDetector *pSDetector);
284 // Sets SensitiveDetector (can be nullpt << 153 // Sets SensitiveDetector (can be NULL).
285 154
286 inline G4UserLimits* GetUserLimits() const 155 inline G4UserLimits* GetUserLimits() const;
287 inline void SetUserLimits(G4UserLimits *pU 156 inline void SetUserLimits(G4UserLimits *pULimits);
288 // Gets and sets current UserLimits. 157 // Gets and sets current UserLimits.
289 158
290 inline G4SmartVoxelHeader* GetVoxelHeader( 159 inline G4SmartVoxelHeader* GetVoxelHeader() const;
291 inline void SetVoxelHeader(G4SmartVoxelHea 160 inline void SetVoxelHeader(G4SmartVoxelHeader *pVoxel);
292 // Gets and sets current VoxelHeader. 161 // Gets and sets current VoxelHeader.
293 162
294 inline G4double GetSmartless() const; << 163 inline G4double GetSmartless();
295 inline void SetSmartless(G4double s); 164 inline void SetSmartless(G4double s);
296 // Gets and sets user defined optimisati 165 // Gets and sets user defined optimisation quality.
297 166
298 inline G4bool IsToOptimise() const; << 167 G4bool operator == ( const G4LogicalVolume& lv) const;
299 // Replies if geometry optimisation (vox << 168 // Equality defined by address only- return true if objects are at
300 // applied for this volume hierarchy. << 169 // same address, else false.
301 inline void SetOptimisation(G4bool optim); << 170
302 // Specifies if to apply or not geometry << 171 inline const G4VisAttributes* GetVisAttributes () const;
303 // volume hierarchy. Note that for param << 172 inline void SetVisAttributes (const G4VisAttributes* pVA);
304 // hierarchy, optimisation is always app << 173 inline void SetVisAttributes (const G4VisAttributes& VA);
305 <<
306 inline G4bool IsRootRegion() const; <<
307 // Replies if the logical volume represe <<
308 inline void SetRegionRootFlag(G4bool rreg) <<
309 // Sets/unsets the volume as a root regi <<
310 inline G4bool IsRegion() const; <<
311 // Replies if the logical volume is part <<
312 inline void SetRegion(G4Region* reg); <<
313 // Sets/unsets the volume as cuts region <<
314 inline G4Region* GetRegion() const; <<
315 // Return the region to which the volume <<
316 inline void PropagateRegion(); <<
317 // Propagates region pointer to daughter <<
318 <<
319 const G4MaterialCutsCouple* GetMaterialCut <<
320 void SetMaterialCutsCouple(G4MaterialCutsC <<
321 // Accessors for production cuts. <<
322 <<
323 G4bool operator == (const G4LogicalVolume& <<
324 // Equality defined by address only. <<
325 // Returns true if objects are at same a <<
326 <<
327 const G4VisAttributes* GetVisAttributes () <<
328 void SetVisAttributes (const G4VisAttribut <<
329 void SetVisAttributes (const G4VisAttribut <<
330 // Gets and sets visualization attribute 174 // Gets and sets visualization attributes.
331 // Arguments are converted to shared_ptr <<
332 175
>> 176 inline void BecomeEnvelopeForFastSimulation(G4FastSimulationManager* );
>> 177 // Makes this an Envelope for given FastSimulationManager.
>> 178 // Ensures that all its daughter volumes get it too - unless they
>> 179 // have one already.
>> 180 void ClearEnvelopeForFastSimulation(G4LogicalVolume* motherLV= 0);
>> 181 // Erase volume's Envelope status and propagate the FastSimulationManager
>> 182 // of its mother volume to itself and its daughters.
333 inline G4FastSimulationManager* GetFastSim 183 inline G4FastSimulationManager* GetFastSimulationManager () const;
334 // Gets current FastSimulationManager po << 184 // Gets current FastSimulationManager pointer.
335 185
336 inline void SetBiasWeight (G4double w); 186 inline void SetBiasWeight (G4double w);
337 inline G4double GetBiasWeight() const; 187 inline G4double GetBiasWeight() const;
338 // Sets and gets bias weight. 188 // Sets and gets bias weight.
339 189
340 public: << 190 private:
341 <<
342 G4LogicalVolume(__void__&); <<
343 // Fake default constructor for usage re <<
344 // persistency for clients requiring pre <<
345 // persistifiable objects. <<
346 <<
347 virtual G4bool IsExtended() const; <<
348 // Return true if it is not a base-class <<
349 <<
350 inline G4FieldManager* GetMasterFieldManag <<
351 // Gets current FieldManager for the mas <<
352 inline G4VSensitiveDetector* GetMasterSens <<
353 // Gets current SensitiveDetector for th <<
354 inline G4VSolid* GetMasterSolid() const; <<
355 // Gets current Solid for the master thr <<
356 <<
357 inline G4int GetInstanceID() const; <<
358 // Returns the instance ID. <<
359 <<
360 static const G4LVManager& GetSubInstanceMa <<
361 // Returns the private data instance man <<
362 <<
363 static void Clean(); <<
364 // Clear memory allocated by sub-instanc <<
365 <<
366 inline void Lock(); <<
367 // Set lock identifier for final deletio <<
368 <<
369 void InitialiseWorker(G4LogicalVolume* ptr <<
370 G4VSolid* pSolid, G4 <<
371 // This method is similar to the constru <<
372 // thread to achieve the partial effect <<
373 <<
374 void TerminateWorker(G4LogicalVolume* ptrM <<
375 // This method is similar to the destruc <<
376 // thread to achieve the partial effect <<
377 191
378 void AssignFieldManager(G4FieldManager* fl << 192 void SetFastSimulationManager (G4FastSimulationManager* pPA,
379 // Set the FieldManager - only at this l << 193 G4bool IsEnvelope);
380 << 194 // Sets the fast simulation manager. Private method called by the
381 static G4VSolid* GetSolid(G4LVData& instLV << 195 // public SetIsEnvelope method with IsEnvelope = TRUE. It is
382 static void SetSolid(G4LVData& instLVdata, << 196 // then called recursivaly to the daughters to propagate the
383 // Optimised Methods - passing thread in << 197 // FastSimulationManager pointer with IsEnvelope = FALSE.
384 << 198
385 G4bool ChangeDaughtersType(EVolume atype); << 199 G4LogicalVolume* FindMotherLogicalVolumeForEnvelope();
386 // Change the type of the daughters volu << 200
387 // Meant for the user who wants to use t << 201 G4LogicalVolume(const G4LogicalVolume&);
388 // the contents of a volume. << 202 G4LogicalVolume& operator=(const G4LogicalVolume&);
389 // Returns: success (true) or failure (f << 203 // Private copy-constructor and assignment operator.
390 204
391 private: 205 private:
392 206
393 using G4PhysicalVolumeList = std::vector<G << 207 // Data members:
394 208
395 G4GEOM_DLL static G4LVManager subInstanceM << 209 G4RWTPtrOrderedVector<G4VPhysicalVolume> fDaughters;
396 // This new field helps to use the class <<
397 <<
398 G4PhysicalVolumeList fDaughters; <<
399 // Vector of daughters. Given initial si 210 // Vector of daughters. Given initial size of 0.
>> 211 G4FieldManager *fFieldManager;
>> 212 // Pointer (possibly NULL) to (magnetic or other) field manager object.
>> 213 G4Material *fMaterial;
>> 214 // Pointer to material at this node.
400 G4String fName; 215 G4String fName;
401 // Name of logical volume. 216 // Name of logical volume.
402 G4UserLimits* fUserLimits = nullptr; << 217 G4VSensitiveDetector *fSensitiveDetector;
403 // Pointer (possibly nullptr) to user St << 218 // Pointer (possibly NULL) to `Hit' object.
404 G4SmartVoxelHeader* fVoxel = nullptr; << 219 G4VSolid *fSolid;
405 // Pointer (possibly nullptr) to optimis << 220 // Pointer to solid.
406 G4double fSmartless = 2.0; << 221 G4UserLimits *fUserLimits;
>> 222 // Pointer (possibly NULL) to user Step limit object for this node.
>> 223 G4SmartVoxelHeader *fVoxel;
>> 224 // Pointer (possibly NULL) to optimisation info objects.
>> 225 G4double fSmartless;
407 // Quality for optimisation, average num 226 // Quality for optimisation, average number of voxels to be spent
408 // per content. 227 // per content.
409 G4Region* fRegion = nullptr; << 228 const G4VisAttributes* fVisAttributes;
410 // Pointer to the cuts region (if any). << 229 // Pointer (possibly NULL) to visualization attributes.
411 G4double fBiasWeight = 1.0; << 230 G4FastSimulationManager *fFastSimulationManager;
>> 231 // Pointer (possibly NULL) to G4FastSimulationManager object.
>> 232 G4bool fIsEnvelope;
>> 233 // Flags if the Logical Volume is an envelope for a
>> 234 // FastSimulationManager.
>> 235 G4double fBiasWeight;
412 // Weight used in the event biasing tech 236 // Weight used in the event biasing technique.
413 std::shared_ptr<const G4VisAttributes> fVi <<
414 // Pointer to visualization attributes. <<
415 <<
416 // Shadow of master pointers. <<
417 // Each worker thread can access this fiel <<
418 // through these pointers. <<
419 // <<
420 G4VSolid* fSolid = nullptr; <<
421 G4VSensitiveDetector* fSensitiveDetector = <<
422 G4FieldManager* fFieldManager = nullptr; <<
423 G4LVData* lvdata = nullptr; // For use of <<
424 <<
425 G4int instanceID; <<
426 // This new field is used as instance ID <<
427 EVolume fDaughtersVolumeType; <<
428 // Are contents of volume placements, re <<
429 G4bool fOptimise = true; <<
430 // Flag to identify if optimisation shou <<
431 G4bool fRootRegion = false; <<
432 // Flag to identify if the logical volum <<
433 G4bool fLock = false; <<
434 // Flag to identify if entity is locked <<
435 }; 237 };
436 238
437 #include "G4LogicalVolume.icc" 239 #include "G4LogicalVolume.icc"
438 240
439 #endif 241 #endif
440 242